Mobile asset tracking unit, system and method

ABSTRACT

An asset tracking unit, system, and method may include at least one transceiver having communicative connections with at least one SATCOM network and at least one GPS network via at least one antenna, wherein tracking information for at least one asset associated with the at least one transceiver is received from the GPS network and is communicated to the SATCOM network, a first link that provides a multi-code one of the communicative connections between the at least one transceiver and the at least one SATCOM network, and a second link that provides a multi-channel one of the communicative connections between the at least one transceiver and the at least one GPS network. The unit, system and method may additionally include at least one remote operations center remote from an asset to be tracked, wherein the asset to be tracked is geographically associated with the central processing unit.

CROSS-REFERENCE TO RELATED APPLICATIONS APPLICATION

This application is a continuation of U.S. application Ser. No.13/082,988, filed Apr. 8, 2011, entitled “Mobile Asset Tracking Unit,System and Method,” now U.S. Pat. No. 8,144,008, which is a continuationof U.S. application Ser. No. 12/953,502, filed Nov. 24, 2010, entitled“Mobile Asset Tracking Unit, System and Method,” now U.S. Pat. No.7,924,153, which is a continuation of U.S. application Ser. No.11/717,575, filed Mar. 13, 2007, entitled “Mobile Asset Tracking Unit,System and Method,” now U.S. Pat. No. 7,843,335, each of which isincorporated herein by reference in its entirety.

BACKGROUND OF THE INVENTION

1. Field of the Invention

The present invention is directed generally to mobile electronics andcommunications, and, more specifically, to a mobile asset tracking unitand system.

2. Description of the Background

There is an absence in the currently available technological arts of asingle device, system and method that allows for the tracking andlocating of assets, in the form of persons or equipment, “in the field”during the presence of those assets in remote or inaccessible locations,wherein that single device, system and method presents extended usagetime and efficient information transfer. For example, entities operatingin wartime, or other dangerous environments, first respondercircumstances, or remote recreational activities such as hiking andclimbing, do not presently have access to a methodology whereby suchentities can be efficiently tracked and/or transfer respective status,without need to carry extra batteries or have access to a remote powersource. Further, available technologies do not safeguard such entitiesfrom communications theft, communications breakdown, information theft,or poor communications reception. Further, such entities presently arenot tracked in view of other such entities or relative to otherimportant assets.

Rather, entities are presently not tracked, or are not tracked in viewof other assets, or are not tracked in conjunction with informationregarding the asset that is vital to survival of the asset, or are askedto carry a myriad of items to account for contingencies, such ascarrying extra batteries in case a loss of power occurs, or are not ableto be tracked as they navigate in ill-defined geographic regions or inregions having poor communications reception. Such lack of knowledge,lack of information, and need to carry extra items may prove veryundesirable and highly disadvantageous, particularly to entities actingin wartime, hostile environments, or as first responders.

Thus, a need exists for a mobile, handheld device, system, and methodthat efficiently, with high information flow, and with low powerconsumption, securely tracks assets in one or more fields of use.

BRIEF SUMMARY OF THE INVENTION

The present invention includes an asset tracking unit, system, andmethod. The asset tracking unit, system, and method may include at leastone transceiver having communicative connections with at least oneSATCOM network and at least one GPS network via at least one antenna,wherein tracking information for at least one asset associated with theat least one transceiver is received from the GPS network and iscommunicated to the SATCOM network, a first link that provides amulti-code one of the communicative connections between the at least onetransceiver and the at least one SATCOM network, and a second link thatprovides a multi-channel one of the communicative connections betweenthe at least one transceiver and the at least one GPS network.

The asset tracking unit for use with the unit, system, and method may beof handheld size. The transceiver may include a multi-code, such as14-20 codes, SATCOM transceiver and a multi-channel, such as a 16channel, GPS transceiver. The antenna may be an active quadrifilar helixGPS antenna. The transceiver may operate for only non-continuousoperation periods.

The asset tracking unit, system, and method may additionally include atleast one status indicator operably connected to the at least onetransceiver, wherein said at least one status indicator indicates astatus of the connection of the at least one transceiver to at least oneof the SATCOM network and the GPS network. The unit, system, and methodmay additionally include at least one mode switch that, when activated,changes an at least one mode of the at least one transceiver.

In certain embodiments, the unit, system, and method of the presentinvention may also include, within the unit, a data encoder thatencrypts information transmitted by the at least one transceiver via theat least one SATCOM network. The data encoder may be associated with acentral processing unit that controls the at least one transceiver.

The unit system and method may additionally include at least one remoteoperations center remote from an asset to be tracked, wherein the assetto be tracked is geographically associated with the central processingunit. The at least one remote operations center may communicate withmultiple ones of the at least one central processing unit via the SATCOMnetwork. This communication may additionally pass though numerousground-based transceivers and the Internet. The at least one remoteoperations center may be and include a messaging hub and command relayfor at least two of the central processing units associated withdifferent ones of the assets.

The remote operations center may be a tiered architecture, and may bepassword accessible only by the at least one central processing unit,and all communications to and from the remote operations center may beencrypted.

Thus, the present invention provides a mobile, handheld device, system,and method that efficiently, with high information flow, and with lowpower consumption, tracks assets in one or more fields of use.

BRIEF DESCRIPTION OF THE SEVERAL VIEWS OF THE DRAWINGS

For the present invention to be clearly understood and readilypracticed, the present invention will be described in conjunction withthe following figures, wherein like reference numerals represent likeelements, and wherein:

FIG. 1 is a functional block diagram illustrating an asset tracking unitin accordance with the present invention;

FIG. 2 is a functional block diagram illustrating an asset tracking unitin accordance with the present invention;

FIG. 3 is a graphical depiction of the in-service time of an assettracking unit in accordance with the present invention;

FIG. 4 is a graphical depiction of a radiation pattern of an exemplaryantenna for use with the present invention; and

FIG. 5 is a functional block diagram illustrating an asset trackingsystem in accordance with the present invention.

DETAILED DESCRIPTION OF THE INVENTION

It is to be understood that the figures and descriptions of the presentinvention have been simplified to illustrate elements that are relevantfor a clear understanding of the present invention, while eliminating,for purposes of clarity, many other elements found in typical trackingand communications systems, devices and methods. Those of ordinary skillin the art will recognize that other elements are desirable and/orrequired in order to implement the present invention. However, becausesuch elements are well known in the art, and because they do notfacilitate a better understanding of the present invention, a discussionof such elements is not provided herein.

An exemplary asset tracking unit (unit) 10 operating within the systemand method of the present invention is illustrated in the functionalblock diagram of FIG. 1. The unit of the present invention is andincludes one or more transceiver units 12. The unit(s) may be dedicatedto the tracking of assets 14. Assets, as used herein, include persons,mobile and stationary equipment, vehicles and other means oftransportation whether by ground, air, water, or otherwise, UAV's andother aerospace-related assets, other communications devices, and thelike.

In order to allow for carrying of the unit by assets in the form ofpersons, the unit may be sized such that the unit may be handheld. Ofcourse, as will be apparent to those skilled in the art, the unit may beefficiently sized larger than handheld size for uses associated withnon-person, such as large equipment, assets. For example, the size ofsuch a handheld unit may be, for example, about 2-4 inches in width,about 4-7 inches in height, and about 0.5-3 inches in depth. Thoseskilled in the art will well understand that similar size ranges tothose stated hereinabove may be employed to enable the holding of theunit in the hand of a user, and that larger size ranges may be employedin the event there is not a need to have the unit be small, whether itbe held in the hand of the user or otherwise. Additionally oralternatively, the unit may have associated therewith any one or more ofa known myriad of mounting or holding capabilities, such as straps,handles, knobs, velcro, magnets, glue or epoxy, including re-usableadhesives, and the like.

The unit may have associated therewith one or more features to allow foradvantageous use of the unit, as illustrated in FIG. 2. For example, theunit may include one or more features for use in conjunction with lowpower consumption, and may include a receiver 12 equipped for satellitecommunication. Alternatively, receiver 12 may also be a transceiver, toprovide greater functionality. As used herein, any receiver as describedin any particular embodiment of the present invention may also be atransceiver. The unit may further have the same or a differenttransceiver or receiver 12 equipped for global positioning system (GPS)communication, which satellite transmissions may be multi-code and whichGPS transmissions may be multichannel, such as 16 channel GPS, an activeantenna, such as an active quadrifilar helix GPS antenna 20, multiplereceiver or transceiver mode switches 24, which may include at least onenon-continuous transmission mode, GPS and/or SATCOM communication statusindicators 26, a data encoder 30 to enable encryption of informationtransmitted, environmental robustness features, and connectivity to anasset tracker network via a remote operations center(s).

In order to improve hardware extensibility, the unit may optionallyinclude standard computer interoperability features, such as USBinterfaces, card-based secure digital storage, external hard drivecapability, and antenna, ethernet, modem, or firewire communicationplug-ins, for example.

Further, as illustrated in FIG. 2, the unit may advantageously include acapability to monitor the status of the asset being tracked 32. Thestatus of the asset may be independently monitored by the unit, or maybe monitored by a separate electronic device 34 used in conjunction withthe unit. Such a separate electronic device may preferably be inelectronic communication with the asset tracking unit, such as by thecomputer interoperability features discussed hereinabove, such as viawired, RF, or infrared communication. Such monitoring of asset statusmay include, for example, monitoring of environmental conditions, vitalsigns, weights, electronic signature, or the like. As such, electronicdevices in communication with the asset tracking unit may include vitalsign monitors, pressure transducers, RF IDs, damage sensors, humiditysensors, radioactivity sensors, heat sensors, and the like, for example.

Additionally with regard to the exemplary embodiment illustrated in FIG.2, the asset tracking transmitter of the present invention may allow forthe transceiver to be in communication with a satellite network, such asthe GlobalStar satellite constellation, via satellite communication(SATCOM) transmissions. In certain embodiments of the present invention,the SATCOM communication may be one way, i.e., the satellitecommunication may occur only from the handheld unit to a satellite. Ofcourse, in other embodiments, the unit may be capable of two way SATCOMtransmission, that is, transmission and reception of satellitecommunications.

Further with regard to SATCOM transmission by the unit, multiple codesmay be included via the transceiver in the satellite transmission. Forexample, between 14 and 20 total codes may be transmitted in thesatellite transmission, and these codes may include, for example, one ofmany, such as fourteen; different transmit codes, the current GPSposition of the handheld unit, the unit identification code of thehandheld unit, and a time-stamp of the subject transmission. The codesmay include codes indicating information relevant to the asset beingtracked, such as the status of the asset as discussed hereinabove.

As will be apparent to those skilled in the art, the GPS positiontransmitted via SATCOM may be obtained by the unit from the GPS receiverwithin the unit. The subject GPS receiver may be, for example, a sixteenchannel GPS receiver. The GPS signal may be received via any antennaknown to those skilled in the art, but most preferably via an activeantenna, such as the aforementioned active quadrifilar helix GPSantenna.

The asset tracker unit of the present invention may be used in any oneof a number of different activities or environments, including, but notlimited to, child safety, remote outdoor activities such as hiking andclimbing, emergency first response, and blue force/red force tracking(National Security-related), as well as tracking vehicles and othermeans of transportation, whether by ground, air, water, or otherwise,UAV's and other aerospace vehicles. In certain of the these embodiments,most particularly those related to national defense or security, alldata transmitted by the handheld unit may be encrypted by the dataencoder for increased security, such as by using advanced encryptionstandard (AES)-128, and/or the RSA asymmetric encryption algorithm,and/or the like, for example. Of course, those skilled in the art willunderstand that other encryption methodologies may be used, and othermethodologies for increasing data security may be employed, such asstaggered communication techniques or data scrambling. For example, theunit may make use of spread spectrum transmissions, such as 0.25 wattspread spectrum transmissions with 2.5 megahertz frequency bands asdiscussed further hereinbelow.

Due to the use in the environments discussed hereinabove, in whichcertain environments largely preclude the transport of battery packs orthe availability of additional batteries or external power sources, thehandheld unit of the present invention may employ one or more techniquesfor significant power savings over similar units available in the priorart. The unit of the present invention may run on small, lightweightbatteries, such as, for example, as few as two 1.5V AA lithiumbatteries, or other chemical types of small batteries. Of course, otherbattery types 40 may be employed, as may be other power sources. Forexample, in suitable environments, the unit may run on external power,or allow for recharging of batteries via external power, or may run onsolar power, for example. In order to provide robustness of the unitduring periods of variable power availability, a handheld one of theunits may operate acceptably in an operating range of 1.8-3.3 V DC. Theoperating time of the unit may be a function of the environment ofoperation, the available power supply, and the power consumptionnormalized to a constant power consumption. In the exemplary embodimentdiscussed hereinabove wherein two AA lithium batteries are employed inthe unit, FIG. 3 illustrates the service time, in hours, of the unit atnumerous constant power consumptions in a constant 21 degree Celsiusenvironment. Of course, other operating ranges for voltage of the unitmay be available, particularly in the event the asset tracker unit isnot of handheld size, and the handheld unit may have an operatingvoltage outside the aforementioned range in the circumstance whereincertain of the characteristics of the unit discussed hereinthroughoutare modified.

In order to provide power savings, and thereby maximize battery life inbattery-operated embodiments, the handheld unit may engage in SATCOMtransmissions, or GPS receptions, in non-continuous time frames 50. Forexample, for SATCOM transmissions, the unit may transmit theaforementioned codes only at predetermined intervals, or may transmitonly partial information packets at certain intervals (i.e., the unitmay transmit only position and unit identification at certain times),and full information packets (i.e. packets containing the fullcomplement of SATCOM codes) at other intervals. Alternatively, the unitmay identify instances of poor communication, and may skip attempts atcommunication during intervals in which transmissions are unlikely to bereceived by the intended recipient. Likewise, the unit may attemptreceipt of GPS location signals only during periods in which it can beverified that the GPS satellite constellation is “in view.”

Non-continuous communication time frames for communication may bemodified by a user of the handheld unit, or at an operations center asdiscussed further hereinbelow. Such non-continuous communication timeframes may appreciably prolong operation times on a single set ofbatteries. For example, if the device of the present invention is usedprimarily for GPS tracking, and the SATCOM transmission mode is usednon-continuously and relatively infrequently, the device may runconstantly for more than approximately fifteen hours on just a singleset of the above-referenced AA lithium batteries. Further, either theuser of the handheld device or the operations center may configure theunit to make the most efficient use of RF frequencies for communicationsto avoid consumption of excess battery power. For example, the user orthe operations center may be enabled to vary the RF frequency among atleast four channels of operations via mode switching, using theaforementioned resolution of 2.5 MHz per operating mode frequency band.Such operating modes may be identified using channel identifiers forease of use by the user, such as by indicating on the unit channels A,B, C, or D, or channels 1, 2, 3, or 4, or any similar methodology ofchannel indication.

The present invention may also include an accelerometer, or motionsensor. To conserve power and battery life, the unit may optionally nottransmit unless it has subsequently moved to a different location. Forexample, when the unit is relatively still, it may automatically turnoff the GPS. Subsequently, after the unit moves or has moved a certainamount, the accelerometer/motion sensor function may turn on orotherwise activate the GPS.

As discussed hereinabove, the performance of the handheld unit of thepresent invention must be acceptable in any of a variety ofenvironments. As such, the unit performs acceptably after exposure totemperatures between 60 degrees C. and −20 degrees C., and may performacceptably at even greater temperature ranges. Further, the unitoperates properly after exposure to extreme humidity levels, and may bemodified to be made waterproof. For example, the casing of the unit maybe waterproofed, such as being hermetically sealed, or the internalelements used within the device may be waterproofed. Additionally, theunit may perform properly after exposure to any of a variety ofvibrations, such as random vibrations from 20 Hz to 2000 Hz, and to 0.04GHz. Finally, the unit may preferably operate after being subjected tohigh salt conditions, such as a salt fog, and/or may operate properlyafter being subjected to any of a number of chemicals, such as thosethat might be employed in a chemical warfare attack. Further, theSATCOM, GPS, and communication capabilities of the subject device mustcomply with appropriate regulations, and specifically environmental andoperational regulations, and exhibit proper performance characteristicswith regard to radiated emissions, radiated immunity, conductedemissions, conducted immunities, and electrostatic discharges, for alloperating environments.

The radio communications engaged in by the unit of the present inventionoccur via one or more antenna(e) 20 contained within the unit. The atleast one antenna is operably connected to each of the SATCOM and theGPS transceiver(s) discussed hereinabove. For example, the GPS receiveror transceiver of the present invention may communicate with the GPSsatellite constellation via a an active antenna having an operatingfrequency of, for example, 1575.42 MHz+/−2 MHz, such as theaforementioned active quadrifilar helix GPS antenna capable of 16channel GPS reception. For example, a GeoHelix-S antenna may be employedin the unit, and the radiation pattern of this exemplary antennaembodiment is illustrated in FIG. 4. Further, ease of use of the instantinvention as a handheld unit may be aided by employing the GPS antennaas an embedded antenna, although those skilled in the art will recognizethat the antenna may be at least partially externally mounted.

In a preferred embodiment, the GPS antenna of the present invention maydeliver stable performance in all use modes and use environments,including environments with high free space or high lossy dielectriccontent, to enable use of the present device in a myriad of harshenvironments, densely populated environments, or densely forrestedenvironments in which typical GPS devices exhibit poor performance. Ofcourse, in the operating environments discussed hereinthroughout, andparticularly in defense-related application environments, such as ininternational locations, communication by the antennae employed in thepresent invention with the desired satellites may be difficult but maybe of the utmost importance. This may, of course, be accomplished inpart through the use of antennae having high acceptance angles.Correspondingly, as mentioned with respect to FIG. 2, the status ofaccessibility to the desired communication system may be made evident onthe unit, such as by communication status indicators 26 for at least oneSATCOM network and the GPS network. When the desired network(s) areaccessible to the antenna(e) of the handheld unit, these indicators mayindicate as such, such as by a constant or flashing light associatedwith a labeled network indicator (i.e. a label indicating “GPS” or“SATCOM”, for example).

The SATCOM transceiver of the instant invention may employ any satelliteantenna known to those skilled in the art that is capable ofcommunication with the desired satellite system used with the unit ofthe present invention. Additionally, the same antenna as that used forthe GPS antenna may be modified such that the antenna is capable ofperiodically switching from the GPS mode of operation, having a centerfrequency of 1575.42 MHz, for example, to SATCOM communication mode.

Of course, the antennae associated with the asset tracking unit of thepresent invention may have associated therewith one or more amplifiers54 in order to amplify transceived signals. For example, the GPS antennadiscussed hereinabove may have integrated therewith a low noiseamplifier (LNA).

As discussed hereinabove, the receiver(s) or transceiver(s) of the unitmay include or be accessible to one or more encoders for dataencryption, particularly for data encryption associated with highsecurity environments of operation. The unit may encrypt sent data, anddecrypt received data, pursuant to any encryption algorithm known tothose skilled in the art. For example, the unit may operate using anAES-128 encryption algorithm, which may operate in satisfaction of theNIST Known Answer test.

Each of the encoder(s), transceiver(s), modes, and communication statusindicators of the unit may be operably connected to one or more centralprocessing unit(s) (CPUs) 56 that operate the asset tracking unit. TheCPU may operate each of the modules associated with the unit, at theproper time and pursuant to the proper information. The CPU mayadditionally interface to one or more operating systems. Such operatingsystems may follow user commands, such as to switch modes ofcommunication, may display to a user, such as via indicator lights or avideo display, the status of connections to desired networks, may modifyor allow modification of non-continuous communication timing on anyavailable network, and may perform other similar functions. The CPU mayactively interface with the one or more hardware elements associatedwith the hardware and functionality of the unit as described herein.Further, the CPU may send or receive information, such as within thecodes sent via SATCOM communications, that allows for or indicatescertain actions have, or are to, occur within the asset tracking unit.

Further, as discussed hereinabove, the CPU may interoperate withindicators or a display that indicate information to the user of theasset tracking unit, and the CPU may use the information sent via theSATCOM codes to communicate with one or more operations centers toindicate information to the interested user(s) at the operationscenter(s). For example, a user of the unit may receive, and be able toview via an optional display as controlled by the CPU, status not onlyof that user's unit, but also of other users/units. Further, a user atthe operations center may be able to view certain statuses, andlocations, of multiple units then in operation, at one or at multiplelocations.

In an exemplary embodiment of the present invention illustrated in FIG.5, in which the unit 10 is resident in a system of like-userscommunicatively connected to one or more operations center(s), the assettracking unit may communicate with a GPS constellation 100, and one ormore SATCOM networks 102, as discussed hereinthroughout. As illustrated,the unit may use encrypted communication 30, such as on the transmissionto the one or more SATCOM network(s). The unit may also engage in datacompression, or decompression of compressed data, for increasedefficiency of communication 30.

As illustrated in FIG. 5, following receipt (or sending) by the desiredSATCOM satellite, the information received (or sent) may be indicated,such as by spread spectrum communication techniques, to one or moreground-based transceivers 110. Such ground-based transceivers maycommunicate 120, preferably via secure, encrypted communications, withone or more Web-based servers 124, such as via the Internet, anIntranet, or a dedicated communication network line, for example. SuchWeb-based server(s) may preferably be in communication with one or moreoperations centers 200, as discussed hereinabove.

The operations center(s) of the present invention may provide messagingcapabilities to or from the one or more asset tracking units in thefield, and/or may provide a command “push” capability to remotelycontrol the one or more units, or their respective modes of operationsor operating systems. Additionally, the operations center(s) may providea hub through which units in the field can communicate with one another,such as by sending a message to the operations center, and indicating inthe message that the message is then to be sent by the operations centerback through the network to a different one of the units in the field.This dynamic relaying of information may, for increased data security,be directed from all devices only to and from the operations center(s),wherein the operations center(s) alone then makes available such data toauthorized units also connected to the operations center(s), or,alternatively, information may be shared directly between multiple onesof the units as well as with the operations center(s), such as via theSATCOM network.

The required computational capabilities of the unit, and hence the powerconsumed by the unit, may be minimized by the coordinating of operationsof one or more of the units by the at least partial “thin client”operation discussed hereinabove, in which the remote operationscenter(s), via the one or more central Web servers, bears the burden ofa significant portion of the computational aspects of the unit(s). Forexample, each unit in a system of orchestrated units may be coordinatedthrough, instructed by, monitored by, and/or reported on by one or moreof the remote operations centers, wherein each such operations centermay provide a graphical user interface that maps the one or more unitsin the field, via one or several map displays indicating the locationand/or status of each unit in the field, and that generally allowsinterested operations center users to manage the assets associated withremotely located ones of the units.

More specifically with regard to the exemplary operations centerimplementation of the present invention, the operations center mayfeature a tiered architecture for both security and scalability.Thereby, a single operations center deployment may support hundreds orthousands of units simultaneously. Access to the remote operationscenter may be role based, with password protected messaging andencrypted communication as discussed hereinthroughout, and may employthe multi-code communications over the SATCOM network.

Such roles, current status, and current data may lend themselves toapplication at the operations center(s) of one or more databases, suchas relational databases. Such database or databases may convenientlytrack, within the tiered system, all information required by theoperations center(s) to efficiently task and monitor large numbers ofunits, and may discreetly make available to ones of the mobile unitssuch information as is required by only the authorized ones of the unitsattempting to access the operations center(s). Further, in addition torelaying messages and relating tracking information, the one or moreoperations center(s) may incorporate a cryptographically authenticated,remote command framework(s) that allows the operations center(s), ifauthenticated, to remotely manipulate one or more of the units.

Those of ordinary skill in the art will recognize that manymodifications and variations of the present invention may beimplemented. The foregoing description is intended to cover all suchmodifications and variations, and the equivalents thereof.

What we claim is:
 1. An apparatus, comprising: a transceiver configuredto be collocated with an asset, the transceiver configured to establish,using a satellite communication (SATCOM) antenna, a multi-codeconnection with a SATCOM network, the transceiver configured toestablish, using a global positioning system (GPS) antenna, amulti-channel connection with a GPS network, the transceiver configuredto receive location information associated with a location of thetransceiver via the multi-channel connection; a mode switch configuredto allow a user to select an operating frequency of the transceiver; anda motion detector configured to detect motion of the asset, thetransceiver configured to transmit the location information and anindication of the motion of the asset to a computing device via themulti-code connection and in response to the motion detector detectingthe motion of the asset.
 2. The apparatus of claim 1, wherein thetransceiver is configured to activate the multi-code connection inresponse to the motion detector detecting the motion of the asset. 3.The apparatus of claim 1, wherein the transceiver is configured toactivate the multi-channel connection in response to the motion detectordetecting the motion of the asset.
 4. The apparatus of claim 1, furthercomprising: a data compression module configured to compress thelocation information prior to the transceiver transmitting the locationinformation to the computing device via the multi-code connection. 5.The apparatus of claim 1, wherein the transceiver is configured toestablish the multi-code connection during a first time period and themulti-channel connection during a second time period mutually exclusiveof the first time period.
 6. The apparatus of claim 1, wherein thetransceiver is configured to activate the multi-channel connection whenthe motion detector indicates that the asset has moved a distancegreater than a predetermined distance.
 7. An apparatus, comprising: atransceiver configured to establish a multi-code connection with asatellite communication (SATCOM) network via at least one antenna, thetransceiver configured to establish a multi-channel connection with aglobal positioning system (GPS) network via the at least one antenna,the transceiver configured to receive, at each time from a plurality oftimes and via the GPS network, tracking information associated with alocation of an asset at that time from the plurality of times, thetransceiver configured to be collocated with the asset; and a datacompression module configured to compress the tracking information toproduce compressed tracking information; the transceiver configured totransmit, to a computing device via the multi-code connection, thecompressed tracking information at a predetermined interval.
 8. Theapparatus of claim 7, wherein the transceiver is configured to transmit,at the predetermined interval and with the compressed trackinginformation, an identifier associated with the transceiver.
 9. Theapparatus of claim 7, wherein the transceiver is configured to establishthe multi-code connection during a first time period and themulti-channel connection during a second time period mutually exclusiveof the first time period.
 10. The apparatus of claim 7, furthercomprising: a status monitor configured to monitor a status of theasset, the transceiver configured to send a signal associated with thestatus of the asset to the computing device via the multi-codeconnection.
 11. A method, comprising: detecting, at a computing device,motion of the computing device; receiving, at a global positioningsystem (GPS) antenna of the computing device and via a multi-channel GPSnetwork, an identifier associated with a location of the computingdevice, the receiving being in response to the detecting; compressingthe identifier associated with the location to produce a compressedidentifier associated with the location; and transmitting, using asatellite communication (SATCOM) antenna of the computing device and viaa multi-channel SATCOM network, the compressed identifier associatedwith the location and an identifier associated with the computing devicein response to the receiving.
 12. The method of claim 11, furthercomprising; deactivating a connection with the multi-channel GPS networkprior to the transmitting.
 13. The method of claim 11, wherein theidentifier associated with the location is an identifier associated withthe location of the computing device at a first time, the transmittingis at a second time after the first time, the method further comprising:transmitting, at a third time and using the SATCOM antenna, anidentifier associated with a location of the computing device at afourth time after the first time, the third time being a predefinedinterval from the first time.
 14. The method of claim 11, wherein thedetecting includes detecting that the asset has moved a distance greaterthan a predetermined distance threshold.
 15. The apparatus of claim 1,further comprising: a data encoder configured to encrypt the locationinformation prior to the transceiver sending the location information tothe computing device via the multi-code connection.
 16. The apparatus ofclaim 7, further comprising: a data encoder configured to encrypt thetracking information prior to the transceiver sending the trackinginformation to the computing device via the multi-code connection. 17.The method of claim 11, further comprising: encrypting the identifierassociated with the location prior to the transmitting.